DE08 ANALOG ELECTRONICS
1.1
Operating
Point, Thermal Runaway.
1.2
Fixed
Bias Circuit.
1.3
Emitter
Stabilized Bias.
1.4
Self
Bias.
1.5
Collector-to-Base
Bias.
1.6
Bias
Stabilization.
1.7
Junction
Field Effect Transistors (JFET).
1.8
Construction
and Characteristics of JFETs.
1.9
Enhancement
and Depletion MOSFETs.
1.10
Biasing
the Field Effect Transistor.
1.11
Biasing
Depletion Type MOSFET.
1.12
Biasing
Enhancement Type MOSFET.
I [4 (4.2-4.6, 4.12), 5 (5.1, 5.2, 5.7, 5.8), 6 (6.1-6.6)]
1.1
Small
Signal BJT model.
1.2
Hybrid-pi
model.
1.3
The
Common Emitter Fixed Bias Configuration
1.4
The
Common Emitter Self Bias Configuration.
1.5
The
CE Emitter-Bias Configuration.
1.6
The
Common Collector Amplifier.
1.7
The
Common Base Amplifier.
1.8
The
Collector Feedback Amplifier.
1.9
Comparison
of CE, CB, CC Configurations.
1.10
Miller’s
Effect Capacitance.
1.11
The
JFET Small Signal Model.
1.12
JFET
Fixed Bias Circuits.
1.13
JFET
Self Bias Configuration.
1.14
JFET
Voltage Divider Configuration.
1.15
Source
Follower.
1.16
Low
Frequency Common gate Amplifiers.
1.17
Depletion
and Enhancement MOSFET Amplifier (gain, input and output impedances).
1.18
Frequency
Analysis – Bode Plot.
1.19
Low
Frequency Response of RC-Coupled Amplifier.
1.20
Low
Frequency Response of FET Amplifier.
1.21
High
Frequency Response of BJT Amplifier.
1.22
High
Frequency Response of FET Amplifier.
1.23
Feedback
Concept .
1.24
Types
of Feedback Connections.
1.25
Gain
with Feedback.
1.26
Input
Impedance with Feedback.
1.27
Output
Impedance with Feedback.
1.28
Reduction
in Distortion and Noise with Negative Feedback.
1.29
Effect
of Negative Feedback on Gain and Bandwidth.
1.30
Typical
Amplifier Circuits using Feedback.
1.31
Basic
Principles of Tuned Amplifiers.
1.32
Double
Tuned Amplifiers.
1.33
The
Cascode and CC-CB Cascade.
1.34
Synchronous
and Stagger Tuning.
I [7 (7.5, 7.6), 8
(8.2-8.7), 9 (9.2-9.9), 11 (11.5-11.10), 17 (17.1-17.3)]; II [8 (8.9)]; III [12
(12.11)]
3.1 Class A, B, AB and C Operation, Amplifier Efficiency.
3.2 Class A power Amplifier (biasing, operation, power, efficiency).
3.3 Transformer Coupled Class A Amplifier.
3.4 Class B Amplifier Operation.
3.5 Class B Amplifier Circuits.
3.6 Amplifier Distortion: harmonic distortion, total harmonic
distortion, second harmonic distortion,
graphical description.
3.7 Power Transistor and Heat Sinking: thermal analogy of power
transistor.
4.1
OP
Amp Basics, Unity Gain, Constant Gain, Virtual Ground.
4.2
Op
Amp Configurations: inverting and noninverting amplifiers, summing amplifier, integrator, differentiator.
4.3
Control
Sources using OP Amp: VCVS,VCCS, CCVS, CCCS.
4.4
OP
Amp parameters: input offset voltage, input offset current, input bias current,
gain-BW, slew rate, maximum signal frequency.
4.5
Butterworth
Filters, Practical Realization
4.6
Highpass,
Bandpass and Bandreject Filters.
4.7
Active
Resonant Bandpass Filters.
4.8
Comparators,
Zero Crossing Detector, Square Wave from Sine Wave, Timing Markers and Generators from Sine Wave.
4.9 Sample
and Hold Circuits.
4.10 Logarithmic Amplifirs (using matched transistors),
Antilogarithmic
Amplifiers,
Logarithmic Multiplier, Differential Amplifier Multiplier.
5.1 Nyquist Criterion, Gain and Phase Margins.
5.2 Oscillator Operation.
5.3 RC-phase Shift Oscillator (using FET, BJT and OpAmp).
5.4 Wien bridge Oscillator.
5.5 Tuned Collector, Tuned Base, Hartley and Colpitts
Oscillators.
5.6 Crystal Oscillators: characteristics, series and parallel
resonant oscillators, oscillator using OpAmps.
5.7 Negative Resistance (Unijunction) Oscillators.
6.1 Diode
Clipping Circuits: series and parallel.
6.2 Diode
Clamping Circuits.
6.3 Transistor
as a Switch.
6.4 Astable and Monostable
Multivibrators: square wave generator, pulse generators, triangular wave
generator.
6.1
IC
555 based Multivibrators (monostable and astable).
6.2
Schmitt
Trigger.
6.3
Square
Wave and Triangular Wave Generators.
I.
R. L. Boylestad and L. Nashelsky, “Electronic Devices and Circuit
Theory”, Pearson Education Asia, Eighth Edition, 2002.
II.
J. Millman and C.C.Halkias, “Integrated Electronics: Analog and Digital
Circuits and Systems”, Tata McGraw-Hill Publishing Company Limited, New Delhi. 1989.
III.
A. S.Sedra and K.C.Smith, “Microelectronic Circuits”, Saunders College
Publishing, Third Edition, 1991.